GYRATE is developing an AI engineering workforce capable of designing, simulating, optimizing, validating, and bringing complex physical systems from requirements to production.
Not a chatbot that answers questions. A team of specialist artificial engineers that executes engineering work, supervised by human experts who own every consequential decision.
Hardware startups, engineering teams and industrial companies that want build-ready designs without hiring a hundred specialists.
To let a ten-person team engineer like a thousand-person company: requirements in, build-ready design out, with human experts approving every critical decision.
A customer can say: we need a 48 V integrated actuator for a humanoid knee, under 3 kg, with 120 Nm peak torque. GYRATE decomposes that mission across specialist artificial engineers, and customers interact primarily with GYRATE Engineer, the single front door. Behind it, the right engineers are dispatched automatically.
Requirements, architecture, interfaces, trade studies, subsystem decomposition, technical decisions, risks, approvals, and coordination of every other engineer.
Motors, generators and electromagnetic actuators: topology, slots and poles, winding, magnets, flux, torque, losses, efficiency, and electromagnetic simulation.
Shafts, bearings, gears, rotor structure, housings, sealing, fits, tolerances, stress, fatigue, vibration, packaging, and structural simulation.
Heat generation, thermal networks, cooling systems, winding, magnet and bearing temperatures, heat sinks, liquid, air and oil cooling, thermal FEA and CFD.
Inverters, MOSFET, IGBT, SiC and GaN devices, DC link, gate drives, sensing, switching, losses, protection, EMI/EMC, and power-stage design.
Field-oriented control, torque, velocity and position loops, observers, state estimation, control stability, calibration, SIL/HIL, and controller generation.
Microcontrollers, PCB requirements, communications, sensors, firmware, diagnostics, CAN and EtherCAT, telemetry, and embedded architecture.
Structural FEA, thermal FEA, CFD, electromagnetic simulation, system simulation, parameter sweeps, design of experiments, and multiphysics optimization.
Manufacturing processes, tooling, fixtures, machining, winding, assembly, process plans, automation, DFM and DFA, and production-line design.
Steel, copper, magnets, aluminium, insulation, polymers, adhesives, bearings, coatings, composites, material trade-offs, and substitutions.
BOMs, suppliers, RFQs, lead times, second sourcing, make-versus-buy, should-cost, availability, geopolitical risk, and redesign to cost.
Dynamometer tests, thermal tests, efficiency maps, vibration, shock, endurance, environmental testing, qualification, and simulation-to-test correlation.
Failure modes and effects, fault trees, bearing life, fatigue, insulation life, thermal ageing, root-cause analysis, and field failures.
Inspection, critical-to-quality characteristics, SPC, capability, metrology, non-conformance, control plans, end-of-line quality, and traceability.
Prototype builds, engineering gates, supplier readiness, manufacturing readiness, build schedules, and production ramp.
GYRATE knows what the product must do, where every engineering number came from, which revision produced it, which assumptions exist, which simulations have actually run, which tests have actually happened, and what is now stale.
GYRATE does not simply edit 60 into 80. It manages the engineering consequence.
Requirements specification, system architecture, candidate concepts, electromagnetic, mechanical and thermal design, electronics and controls architecture, drawings, tolerances, and simulation reports.
Engineering and manufacturing bills of materials, process routing, work instructions, fixtures and tooling, CAM programs, winding recipes, assembly sequences, and inspection plans.
Supplier options, should-cost estimates, lead-time estimates, risk scores, RFQs, sourcing recommendations, and alternate-material proposals.
Verification plans, test procedures, automated test scripts, qualification plans, reliability analysis, and complete traceability.
The work does not end when a PDF is produced. It ends when the product has been built, measured and proven.
The artificial engineers operate professional tools where appropriate instead of rebuilding every engineering tool from scratch.
Humans define intent, exercise judgment, approve consequential decisions, solve novel problems and teach the system. Artificial engineers perform the volume of computation, documentation, optimization and coordination. Every correction an expert makes teaches the system.
Routine simulation, documentation, scheduling, machine monitoring, low-risk purchasing within policy, routine inspection and logistics. The AI acts on its own.
Engineering changes, supplier substitution, process changes, new tooling, tolerance changes. The AI acts and an expert reviews.
Safety-critical release, qualification sign-off, novel materials and processes, major architecture, regulatory submissions. A human approves, always.
Predicted winding temperature meets measured winding temperature. Every test, every defect and every production cycle becomes ground truth that improves the next design.
Tell us what machine you are building and we will show you how the AI Workforce would take it from requirement to production.
Work With the AI Workforce